Development and characterization of waste equine bone-derived calcium phosphate cements with human alveolar bone-derived mesenchymal stem cells

Lithographically-Fabricated HA-Incorporated PCL Nanopatterned Patch for Tissue Engineering

“…In general, it has been hypothesized that surfaces with nanotopography can improve the cell adhesion by increasing the surface area of the substrate because cells could recognize the morphological features of the surface such as grating, pit, hole, etc.. In our study, nanogrooves also influenced cell adhesion and morphology, as demonstrated by 12-hour cell culture [9]. In this work, DPSCs both recognized the surface topography and EBPs distributed on the substrate.…”

“…Figures S2 and S3 show the optimization of coating conditions. In our previous study, we observed the surface morphologies of native ECM of the human body, which was well aligned of the bunch of the ECM fibers [9]. And the lithography technique was used for manipulating the naonogroove/ridge of NG-PCL.…”

“…The femur of a 24-month-old equine was prepared [9]. The thermally treated equine bone (900 • C, 4 h) was ground using a high energy ball mill (Planetary Mono Mill, Pulverisette-6, Fritsch, Germany).…”

Reduced graphene oxide-incorporated calcium phosphate cements with pulsed electromagnetic fields for bone regeneration

“…They frequently used porcine, 12 bovine, 13 chicken, 14 and horse bone. 15,16 However, CPCs still have serious problems: their mechanical strength is low, which is a critical aw for use in clinical applications. Thus, many researchers attempt to promote the mechanical strength of CPCs.…”